What the Ni/H reactor does is to convert heat into concentrated electric and magnetic fields. Pure hydrogen is required to perform this function.
The first step in this conversion process is to convert heat into dipole oscillations. Hydrogen helps to do this by trapping infrared photons that fall on the surface of the nickel micro-particles from being reflected back from their shiny metal surfaces. Hydrogen turns these tiny metal particles into tiny greenhouses which retains the heat so well that few photons escape. If other gases happen to mix with hydrogen at the surface of these nickel particles, heat will rapidly escape from the surface of the metal particles robbing them of the energy that they need to move their surface dipoles into excited agitation. Even a small amount of hydrogen gas contamination wills greatly weaken the insolation properties of the hydrogen. The contaminating gases act as a short circuiting pathway for the heat to get through the hydrogen insolation. The interaction of metals with electromagnetic radiation is largely dictated by the free conduction electrons in the metal. According to the simple Drude model, the free electrons oscillate 180± out of phase relative to the driving electric field. As a consequence, most metals possess a negative dielectric constant at optical frequencies which causes e.g. a very high reflectivity. Furthermore, at optical frequencies the metal’s free electron gas can sustain surface and volume charge density oscillations, called plasmon polaritons or plasmons with distinct resonance frequencies. The existence of plasmons is characteristic for the interaction of metal nanostructures with light. In simple words, metal will reflect heat especially well if that heat is in the deep infrared. The surface charge density oscillations associated with surface plasmons at the interface between a metal and a dielectric can give rise to strongly enhanced optical near-fields which are spatially confined to the interface at the surface of the particles. Similarly, if the electron gas is confined in three dimensions, as in the case of a small subwavelength particle, the overall displacement of the electrons with respect to the positively charged lattice leads to a restoring force which in turn gives rise to specific particle plasmon resonances depending on the geometry of the particle. In particles of suitable (usually pointed) shape, extreme local charge accumulations can occur that are accompanied by strongly enhanced optical fields. This behavior of heat and light at the surface of tiny particles is what nanopasmonics is all about. What drives this special behavior is the evanescent wave. This trapping wave keeps the EMF energy levels strong at the surface of the micro-particles. More on this wave type in the next post. On Fri, Aug 16, 2013 at 1:50 AM, Peter Gluck <[email protected]> wrote: > Dear Friends > > I have just published: > http://egooutpeters.blogspot.ro/2013/08/why-pd-d-lenr-will-never-work.html > > Time can and will show if I was right. Anyway, the mission of > truth is to help problem solving and progress even it makes > some people unhappy and even angry. > > Peter > > -- > Dr. Peter Gluck > Cluj, Romania > http://egooutpeters.blogspot.com >
